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{{short description|American cell biologist}} |
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| name = David W. Deamer |
| name = David W. Deamer |
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| birth_date = {{birth date and age|1939|04|21}} |
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| birth_place = Santa Monica, CA |
| birth_place = Santa Monica, CA |
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| nationality = American |
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| occupation = Biologist |
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| education = [[Duke University]] ([[B.Sc.]] 1961)<br/>[[ |
| education = [[Duke University]] ([[B.Sc.]] 1961)<br/>[[Ohio State University]]<!--Wikipedians do not use "The" as part of Ohio State's name; it is considered a marketing gimmick, and routinely deleted.--> ([[Ph.D.]] 1965) |
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| alma_mater = [[Ohio State University]]<!--Wikipedians do not use "The" as part of Ohio State's name; it is considered a marketing gimmick, and routinely deleted.--> |
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| thesis_title = The effect of alkaline earth ions on fatty acid and phospholipid monolayers |
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'''David Wilson Deamer''' (born April 21, 1939) is an American biologist and Research Professor of Biomolecular Engineering at the [[University of California, Santa Cruz]]. Deamer has made significant contributions to the field of membrane biophysics. His work led to a novel method of DNA sequencing and a more complete understanding of the role of membranes in the [[origin of life]]. |
'''David Wilson Deamer''' (born April 21, 1939) is an American biologist and Research Professor of Biomolecular Engineering at the [[University of California, Santa Cruz]]. Deamer has made significant contributions to the field of membrane biophysics. His work led to a novel method of DNA sequencing and a more complete understanding of the role of membranes in the [[origin of life]]. |
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He was awarded a Guggenheim Fellowship in 1985, which supported research at the Australian National University in Canberra to investigate organic compounds in the [[Murchison meteorite]]. He served as the president of the |
He was awarded a Guggenheim Fellowship in 1985, which supported research at the Australian National University in Canberra to investigate organic compounds in the [[Murchison meteorite]]. He served as the president of the International Society for the Study of the Origin of Life from 2013 to 2014.{{CN|date=August 2022}} |
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== Early life == |
== Early life == |
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Deamer's father, also David, worked at [[Douglas Aircraft Company|Douglas Aircraft]] in [[Santa Monica, California]] during and after [[World War II]] while his mother Zena cared for Deamer and his two brothers, Richard and John. In 1952, the family moved to [[Ohio]], where the three brothers attended Westerville High School. In 1957, Deamer submitted his research on self-organizing protozoa to the [[Westinghouse Science Talent Search]] and was among the 40 winners who were invited to [[Washington DC]] that year. He was awarded a full scholarship to Duke University, where he completed a bachelor's degree in |
Deamer's father, also David, worked at [[Douglas Aircraft Company|Douglas Aircraft]] in [[Santa Monica, California]], during and after [[World War II]] while his mother Zena cared for Deamer and his two brothers, Richard and John. In 1952, the family moved to [[Ohio]], where the three brothers attended Westerville High School. In 1957, Deamer submitted his research on self-organizing protozoa to the [[Westinghouse Science Talent Search]] and was among the 40 winners who were invited to [[Washington DC]] that year. He was awarded a full scholarship to Duke University, where he completed a bachelor's degree in chemistry in 1961.<ref name=ref1/> |
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Deamer went on to earn a PhD in Physiological Chemistry in 1965 at the [[Ohio State University|Ohio State]] University School of Medicine. His advisor was David Cornwell, a lipid biochemist, so Deamer focused on calcium interactions with fatty acid and [[phospholipid]] monolayers, finishing in 1965. During his time as a graduate student Deamer married Jane, and their first son Mark was born in 1963. |
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| ⚫ | As a young professor at UC Davis, Deamer continued to work with [[Electron microscope|electron microscopy]], revealing for the first time particles related to functional ATPase enzymes within the membranes of sarcoplasmic reticulum.<ref name=ref2/> After spending sabbaticals in England at the University of Bristol in 1971 and with [[Alec Bangham]] in 1975, Deamer became interested in [[liposome]]s. Conversations with Bangham inspired his research on the role of membranes in the origin of life, and in 1985 Deamer demonstrated that the Murchison carbonaceous meteorite contained lipid-like compounds that could assemble into membranous vesicles.<ref name=ref3/> Deamer described the significance of self-assembly processes in his 2011 book ''First Life''.<ref name=ref4/> In collaborative work with Mark Akeson, a post-doctoral student at the time, the two established methods for monitoring proton permeation through ion channels such as gramicidin.<ref name=ref5/> In 1989, while returning from a scientific meeting in Oregon, Deamer conceived that it might be possible to sequence single molecules of DNA by using an imposed voltage to pull them individually through a nanoscopic channel. The DNA sequence could be distinguished by the specific modulating effect of the four bases on the ionic current through the channel. In 1993, he and Dan Branton initiated a research collaboration with John Kasianowitz at NIST to explore this possibility with the [[hemolysin]] channel, and in 1996 published the first paper demonstrating that [[nanopore sequencing]] may be feasible.<ref name=ref6/> George Church at Harvard had independently proposed a similar idea, and Church, Branton and Deamer decided to initiate a patent application which was awarded in 1998.<ref name=ref7/> Mark Akeson joined the research effort in 1997, and in 1999 published a paper showing that the hemolysin channel, now referred to as a [[nanopore]], could distinguish between purine and pyrimidine bases in single RNA molecules.<ref name=ref8/> In 2007, [[Oxford Nanopore Technologies]] (ONT) licensed the patents describing the technology<ref name=ref9/> and in 2014 released the MinION [[nanopore sequencing]] device to selected researchers. The first publications appeared in 2015, one of which used the [[MinION]] to sequence E. coli DNA with 99.4% accuracy relative to the established 5.4 million base pair genome.<ref name=ref10/> Despite earlier skepticism, [[nanopore sequencing]] is now accepted as a viable [[Third-generation sequencing|third generation sequencing]] method.<ref name=ref11/><ref name=ref12/><ref name=ref13/><ref name=ref14/> |
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Deamer began post-doctoral research with Lester Packer and Daniel Branton at the University of California, Berkeley in 1965, where he learned techniques of electron microscopy. Deamer and Branton demonstrated that the freeze-etch method split the lipid bilayer of membranes to reveal integral proteins for the first time, and their paper was published in Science in 1967. In the same year Deamer accepted a faculty position at the University of California, Davis, where he spent the next 27 years. Annabeth and Nicholas were added to the family in 1969 and 1977. The marriage ended in 1991. |
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In 1992 Deamer married Olof Einarsdottir, a professor in the Department of Chemistry and Biochemistry, and moved his laboratory to the University of California, Santa Cruz in 1994. The couple have two children, Asta born in 1995 and Stella born in 2000. |
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| ⚫ | As a young professor at UC Davis, Deamer continued to work with [[Electron microscope|electron microscopy]], revealing for the first time particles related to functional ATPase enzymes within the membranes of sarcoplasmic reticulum.<ref name=ref2/> After spending sabbaticals in England at the University of Bristol in 1971 and with [[Alec Bangham]] in 1975, Deamer became interested in [[liposome]]s. Conversations with Bangham inspired his research on the role of membranes in the origin of life, and in 1985 Deamer demonstrated that the Murchison carbonaceous meteorite contained lipid-like compounds that could assemble into membranous vesicles.<ref name=ref3/> Deamer described the significance of self-assembly processes in his 2011 book ''First Life''.<ref name=ref4/> In collaborative work with Mark Akeson, a post-doctoral student at the time, the two established methods for monitoring proton permeation through ion channels such as gramicidin.<ref name=ref5/> In 1989, while returning from a scientific meeting in Oregon, Deamer conceived that it might be possible to sequence single molecules of DNA by using an imposed voltage to pull them individually through a nanoscopic channel. The DNA sequence could be distinguished by the specific modulating effect of the four bases on the ionic current through the channel. In 1993, he and Dan Branton initiated a research collaboration with John Kasianowitz at NIST to explore this possibility with the [[hemolysin]] channel, and in 1996 published the first paper demonstrating that [[nanopore sequencing]] may be feasible.<ref name=ref6/> George Church at Harvard had independently proposed a similar idea, and Church, Branton and Deamer decided to initiate a patent application which was awarded in 1998.<ref name=ref7/> Mark Akeson joined the research effort in 1997, and in 1999 published a paper showing that the hemolysin channel, now referred to as a [[nanopore]], could distinguish between purine and pyrimidine bases in single RNA molecules.<ref name=ref8/> In 2007, [[Oxford Nanopore Technologies]] (ONT) licensed the patents describing the technology<ref name=ref9/> and in 2014 released the MinION [[nanopore sequencing]] device to selected researchers. The first publications appeared in 2015, one of which used the [[MinION]] to sequence E. coli DNA with 99.4% accuracy relative to the established 5.4 million base pair genome.<ref name=ref10/> Despite earlier skepticism, [[nanopore sequencing]] is now accepted as a viable [[Third-generation sequencing|third generation sequencing]] method.<ref name=ref11/><ref name=ref12/><ref name=ref13/><ref name=ref14/> |
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== References == |
== References == |
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<ref name=ref6>{{cite journal|last1=Akeson|first1=M.|last2=Deamer|first2=D.W.|year=1991|title=Proton conductance in the gramicidin water wire: Model for proton conductance in the FoF1 ATPase?|journal=Biophysical Journal|volume=60|issue=1|pages=101–109|doi=10.1016/s0006-3495(91)82034-3|pmc=1260042|pmid=1715764}}</ref> |
<ref name=ref6>{{cite journal|last1=Akeson|first1=M.|last2=Deamer|first2=D.W.|year=1991|title=Proton conductance in the gramicidin water wire: Model for proton conductance in the FoF1 ATPase?|journal=Biophysical Journal|volume=60|issue=1|pages=101–109|doi=10.1016/s0006-3495(91)82034-3|pmc=1260042|pmid=1715764}}</ref> |
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<ref name=ref7>{{cite journal|last1=Kasianowicz|first1=J.|first2=E.|last2=Brandin|first3=D.|last3=Branton|first4=D.W.|last4=Deamer|year=1996|title=Characterization of individual polynucleotide molecules using a membrane channel|journal=Proceedings of the National Academy of Sciences USA|volume=93|issue=24|pages=13770–13773|bibcode=1996PNAS...9313770K|doi=10.1073/pnas.93.24.13770|pmid=8943010|pmc=19421|url=https://dash.harvard.edu/bitstream/handle/1/3109362/Branton_Characterization_Individual_Polynucleotides.pdf?sequence=1}}</ref> |
<ref name=ref7>{{cite journal|last1=Kasianowicz|first1=J.|first2=E.|last2=Brandin|first3=D.|last3=Branton|first4=D.W.|last4=Deamer|year=1996|title=Characterization of individual polynucleotide molecules using a membrane channel|journal=Proceedings of the National Academy of Sciences USA|volume=93|issue=24|pages=13770–13773|bibcode=1996PNAS...9313770K|doi=10.1073/pnas.93.24.13770|pmid=8943010|pmc=19421|url=https://dash.harvard.edu/bitstream/handle/1/3109362/Branton_Characterization_Individual_Polynucleotides.pdf?sequence=1|doi-access=free}}</ref> |
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<ref name=ref8>{{cite journal|last1=Akeson|first1=M.|first2=D.|last2=Branton|first3=J.J.|last3=Kasianowicz|first4=E.|last4=Brandin|first5=D.W.|last5=Deamer|year=1999|title=Microsecond time-scale discrimination among polycytidylic acid, polyadenylic acid, and polyuridylic acid as homopolymers or as segments within single RNA molecules|journal=Biophysical Journal|volume=77|issue=6|pages=3227–3233|doi=10.1016/s0006-3495(99)77153-5|pmid=10585944|pmc=1300593|bibcode=1999BpJ....77.3227A}}</ref> |
<ref name=ref8>{{cite journal|last1=Akeson|first1=M.|first2=D.|last2=Branton|first3=J.J.|last3=Kasianowicz|first4=E.|last4=Brandin|first5=D.W.|last5=Deamer|year=1999|title=Microsecond time-scale discrimination among polycytidylic acid, polyadenylic acid, and polyuridylic acid as homopolymers or as segments within single RNA molecules|journal=Biophysical Journal|volume=77|issue=6|pages=3227–3233|doi=10.1016/s0006-3495(99)77153-5|pmid=10585944|pmc=1300593|bibcode=1999BpJ....77.3227A}}</ref> |
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<ref name=ref9>{{cite web|url=https://www.nanoporetech.com/|title=Oxford Nanopore Technology|accessdate=17 December 2015}}</ref> |
<ref name=ref9>{{cite web|url=https://www.nanoporetech.com/|title=Oxford Nanopore Technology|accessdate=17 December 2015}}</ref> |
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[[Category:Duke University Trinity College of Arts and Sciences alumni]] |
[[Category:Duke University Trinity College of Arts and Sciences alumni]] |
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[[Category:Living people]] |
[[Category:Living people]] |
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[[Category:Ohio State University alumni]] |
[[Category:Ohio State University College of Medicine alumni]] |
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[[Category:People from Santa Monica, California]] |
[[Category:People from Santa Monica, California]] |
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[[Category:University of California, Davis faculty]] |
[[Category:University of California, Davis faculty]] |
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Latest revision as of 18:16, 23 August 2023
 | This article is an autobiography or has been extensively edited by the subject or by someone connected to the subject. (April 2019) |
David W. Deamer | |
|---|---|
| Born | April 21, 1939 Santa Monica, CA |
| Nationality | American |
| Occupation | Biologist |
| Awards | Guggenheim Fellow, 1985 |
| Academic background | |
| Education | Duke University (B.Sc. 1961) Ohio State University (Ph.D. 1965) |
| Alma mater | Ohio State University |
| Thesis | The effect of alkaline earth ions on fatty acid and phospholipid monolayers (1965) |
| Doctoral advisor | David Cornwell |
| Academic work | |
| Discipline | Biophysicist |
| Institutions | University of California, Santa Cruz |
| Notable ideas | nanopore sequencing |
David Wilson Deamer (born April 21, 1939) is an American biologist and Research Professor of Biomolecular Engineering at the University of California, Santa Cruz. Deamer has made significant contributions to the field of membrane biophysics. His work led to a novel method of DNA sequencing and a more complete understanding of the role of membranes in the origin of life.
He was awarded a Guggenheim Fellowship in 1985, which supported research at the Australian National University in Canberra to investigate organic compounds in the Murchison meteorite. He served as the president of the International Society for the Study of the Origin of Life from 2013 to 2014.[citation needed]
Early life
[edit]Deamer's father, also David, worked at Douglas Aircraft in Santa Monica, California, during and after World War II while his mother Zena cared for Deamer and his two brothers, Richard and John. In 1952, the family moved to Ohio, where the three brothers attended Westerville High School. In 1957, Deamer submitted his research on self-organizing protozoa to the Westinghouse Science Talent Search and was among the 40 winners who were invited to Washington DC that year. He was awarded a full scholarship to Duke University, where he completed a bachelor's degree in chemistry in 1961.[1]
Research
[edit]As a young professor at UC Davis, Deamer continued to work with electron microscopy, revealing for the first time particles related to functional ATPase enzymes within the membranes of sarcoplasmic reticulum.[2] After spending sabbaticals in England at the University of Bristol in 1971 and with Alec Bangham in 1975, Deamer became interested in liposomes. Conversations with Bangham inspired his research on the role of membranes in the origin of life, and in 1985 Deamer demonstrated that the Murchison carbonaceous meteorite contained lipid-like compounds that could assemble into membranous vesicles.[3] Deamer described the significance of self-assembly processes in his 2011 book First Life.[4] In collaborative work with Mark Akeson, a post-doctoral student at the time, the two established methods for monitoring proton permeation through ion channels such as gramicidin.[5] In 1989, while returning from a scientific meeting in Oregon, Deamer conceived that it might be possible to sequence single molecules of DNA by using an imposed voltage to pull them individually through a nanoscopic channel. The DNA sequence could be distinguished by the specific modulating effect of the four bases on the ionic current through the channel. In 1993, he and Dan Branton initiated a research collaboration with John Kasianowitz at NIST to explore this possibility with the hemolysin channel, and in 1996 published the first paper demonstrating that nanopore sequencing may be feasible.[6] George Church at Harvard had independently proposed a similar idea, and Church, Branton and Deamer decided to initiate a patent application which was awarded in 1998.[7] Mark Akeson joined the research effort in 1997, and in 1999 published a paper showing that the hemolysin channel, now referred to as a nanopore, could distinguish between purine and pyrimidine bases in single RNA molecules.[8] In 2007, Oxford Nanopore Technologies (ONT) licensed the patents describing the technology[9] and in 2014 released the MinION nanopore sequencing device to selected researchers. The first publications appeared in 2015, one of which used the MinION to sequence E. coli DNA with 99.4% accuracy relative to the established 5.4 million base pair genome.[10] Despite earlier skepticism, nanopore sequencing is now accepted as a viable third generation sequencing method.[11][12][13][14]
Other publications
[edit]Deamer is also the co-author with science writer Wallace Kaufman of a sci-fi novel, The Hunt for FOXP5: A Genomic Mystery Novel (Springer, 2016). Through characters in American universities and Kazakhstani science and politics the authors explore the ethical complexity of editing human genes.
References
[edit]- ^ Deamer, D.W.; Branton, D. (1967). "Fracture planes in an ice-bilayer model membrane system". Science. 158 (3801): 655–657. Bibcode:1967Sci...158..655D. doi:10.1126/science.158.3801.655. PMID 4860951. S2CID 25432205.
- ^ Deamer, D.W.; Baskin, R.J. (1969). "Ultrastructure of sarcoplasmic reticulum preparations". Journal of Cell Biology. 42 (1): 296–307. CiteSeerX 10.1.1.281.3389. doi:10.1083/jcb.42.1.296. PMC 2107567. PMID 4182374.
- ^ Deamer, D.W. (1985). "Boundary structures are formed by organic compounds of the Murchison carbonaceous chondrite". Nature. 317 (6040): 792–794. Bibcode:1985Natur.317..792D. doi:10.1038/317792a0. S2CID 4249097.
- ^ Deamer, David (2011). First life : discovering the connections between stars, cells, and how life began. Berkeley, CA, US: University of California Press. ISBN 9780520274457. OCLC 727950391.
- ^ US patent 5795782, Church, George; Deamer, David W.; Branton, Daniel; Baldarelli, Richard; Kasianowicz, John, "Characterization of Individual Polymer Molecules Based on Monomer-Interface Interactions", issued August 18, 1998, assigned to President and Fellows of Harvard College
- ^ Akeson, M.; Deamer, D.W. (1991). "Proton conductance in the gramicidin water wire: Model for proton conductance in the FoF1 ATPase?". Biophysical Journal. 60 (1): 101–109. doi:10.1016/s0006-3495(91)82034-3. PMC 1260042. PMID 1715764.
- ^ Kasianowicz, J.; Brandin, E.; Branton, D.; Deamer, D.W. (1996). "Characterization of individual polynucleotide molecules using a membrane channel" (PDF). Proceedings of the National Academy of Sciences USA. 93 (24): 13770–13773. Bibcode:1996PNAS...9313770K. doi:10.1073/pnas.93.24.13770. PMC 19421. PMID 8943010.
- ^ Akeson, M.; Branton, D.; Kasianowicz, J.J.; Brandin, E.; Deamer, D.W. (1999). "Microsecond time-scale discrimination among polycytidylic acid, polyadenylic acid, and polyuridylic acid as homopolymers or as segments within single RNA molecules". Biophysical Journal. 77 (6): 3227–3233. Bibcode:1999BpJ....77.3227A. doi:10.1016/s0006-3495(99)77153-5. PMC 1300593. PMID 10585944.
- ^ "Oxford Nanopore Technology". Retrieved 17 December 2015.
- ^ Loman, N.J.; Quick, J.; Simpson, J.T. (2015). "A complete bacterial genome assembled de novo using only nanopore sequencing data". Nature Methods. 12 (8): 733–735. doi:10.1038/nmeth.3444. PMID 26076426. S2CID 15053702.
- ^ Regalado, Antonio; Quick, J.; Simpson, J.T. (2014-09-17). "Radical New DNA Sequencer Finally Gets into Researchers' Hands". MIT Technology Review. Retrieved 2019-03-26.
- ^ Hayden, Antonio; Quick, J.; Simpson, J.T. (2015). "Pint-sized DNA sequencer impresses first users". Nature. 521 (7550): 15–16. Bibcode:2015Natur.521...15C. doi:10.1038/521015a. PMID 25951262.
- ^ Zon, Jerry; Quick, J.; Simpson, J.T. (2015-09-15). "Nanopore Sequencing: 20 Years On". Zone in With Zon: What's Trending in Nucleic Acid Research. Retrieved 2019-03-26.
- ^ Krol, Aaron; Quick, J.; Simpson, J.T. (2014-12-22). "Nanopore Sequencing Is Here to Stay". Bio-IT World. Retrieved 2019-03-26.
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- ^ The Hunt for FOXP5: A Genomic Mystery Novel, Wallace Kaufman and David Deamer, Springer, 2016, ISBN 978-3-319-28960-1